利用原子力显微镜通过电击穿对单层材料进行图案化

Yajie Yang, Jiajia Lu, Yanbo Xie, Libing Duan
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摘要

由于二维材料具有原子厚度和特殊性质,二维材料的出现极大地推动了纳米电子学和纳米技术的发展,而开发一种适用于单层二维材料的通用精确图案技术对于组装纳米器件至关重要。这里展示的是一种利用原子力显微镜针尖的电击穿来按需制造纳米孔、纳米条和其他纳米结构的纳米加工技术。这可以通过电压扫描或在移动针尖的同时施加恒定电压来实现。通过测量电流,可以定量显示单层材料的形成过程。尽管还需要进一步的确认,但目前的结果提供了在单层 MoS2、氮化硼和石墨烯上成功制作图案的证据。所提出的方法有望成为未来的一种通用纳米加工技术。
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Patterning single-layer materials by electrical breakdown using atomic force microscopy
The development of nanoelectronics and nanotechnologies has been boosted significantly by the emergence of 2D materials because of their atomic thickness and peculiar properties, and developing a universal, precise patterning technology for single-layer 2D materials is critical for assembling nanodevices. Demonstrated here is a nanomachining technique using electrical breakdown by an AFM tip to fabricate nanopores, nanostrips, and other nanostructures on demand. This can be achieved by voltage scanning or applying a constant voltage while moving the tip. By measuring the electrical current, the formation process on single-layer materials was shown quantitatively. The present results provide evidence of successful pattern fabrication on single-layer MoS2, boron nitride, and graphene, although further confirmation is still needed. The proposed method holds promise as a general nanomachining technology for the future.
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